Power Engineering Research Topics & Ideas

Power Engineering Research Topics & Ideas that suits your research are listed in this page, you can contact phdservices.org we will provide you with complete research assistance. Get experts solution at your fingertips.

Research Areas in Power Engineering

Research Areas in Power Engineering area addressed below, contact phdservices.org for expert guidance tailored to your interests

1. Renewable Energy and Sustainable Power Systems

• Solar Photovoltaic (PV) Systems
• Wind Energy Conversion Systems
• Hydropower and Small Hydro Systems
• Biomass and Bioenergy
• Geothermal Power Systems
• Wave and Tidal Energy
• Hybrid Renewable Energy Systems
• Energy Harvesting Technologies

2. Power Electronics and Energy Conversion

• Power Electronic Converters (DC-DC, AC-DC, DC-AC)
• High-Frequency Power Conversion
• Multilevel Inverters
• Soft-Switching Techniques
• Power Electronics for Renewable Energy Integration
• Electric Motor Drives and Control
• Wide-Bandgap Semiconductors (SiC, GaN)
• Solid-State Transformers

3. Smart Grid Technologies

• Advanced Metering Infrastructure (AMI)
• Demand Response and Load Management
• Grid-Interactive Renewable Energy Systems
• Distribution Automation
• Cybersecurity in Smart Grids
• Grid Resilience and Self-Healing Networks
• Energy Storage and Grid Stability

4. Power System Protection and Control

• Digital Relaying and Protection Systems
• Fault Detection and Location
• Adaptive and Wide-Area Protection Schemes
• Intelligent Grid Monitoring Systems
• SCADA and Energy Management Systems
• Islanding Detection Techniques

5. Energy Storage Systems

• Battery Technologies (Lithium-Ion, Flow Batteries, Solid-State)
• Supercapacitors and Ultracapacitors
• Hydrogen and Fuel Cell Technologies
• Pumped Hydro Storage
• Compressed Air Energy Storage (CAES)
• Thermal Energy Storage

6. High Voltage Engineering and Insulation

• High Voltage DC (HVDC) Transmission
• Gas-Insulated Substations (GIS)
• Dielectric Materials and Insulation Aging
• Lightning and Surge Protection
• Partial Discharge and Condition Monitoring

7. Electric Vehicles (EVs) and Transportation Electrification

• Battery Management Systems (BMS)
• Wireless Power Transfer for EVs
• Fast Charging and Ultra-Fast Charging Technologies
• Vehicle-to-Grid (V2G) Integration
• Hybrid and Plug-in Hybrid Electric Vehicles (PHEVs)
• Powertrain Optimization

8. Power System Optimization and Planning

• Economic Load Dispatch
• Unit Commitment Strategies
• Optimal Power Flow Analysis
• Power Market Operations and Deregulation
• Decentralized Energy Markets
• Artificial Intelligence and Machine Learning in Power Systems

9. Microgrids and Distributed Energy Resources (DER)

• Microgrid Stability and Control
• Integration of Distributed Generation
• Peer-to-Peer Energy Trading
• Energy Management in Microgrids
• Community Microgrids

10. Nuclear Power and Advanced Reactors

• Small Modular Reactors (SMRs)
• Fusion Energy Research
• Nuclear Waste Management
• Reactor Safety and Control

11. Industrial Power Systems and Energy Efficiency

• Power Quality Improvement
• Harmonic Mitigation Techniques
• Energy Efficiency in Buildings and Industries
• Power Factor Correction

12. Artificial Intelligence and Machine Learning in Power Systems

• AI-Based Grid Forecasting and Optimization
• Fault Prediction and Anomaly Detection
• Reinforcement Learning for Grid Operation
• AI-Based Energy Trading

Research Problems & solutions in Power Engineering

phdservices.org professionals have solved critical research problems in Power Engineering, as shown in the list below. We provide superior solutions for own addressed research problems.

1. Renewable Energy Integration Challenges

Problem: Intermittency of Renewable Energy Sources

• Solar and wind energy are unpredictable, leading to grid instability and voltage fluctuations.

Solution:

• Energy Storage Systems (e.g., Lithium-ion batteries, Supercapacitors, Pumped Hydro Storage) can balance supply-demand variations.
• Smart Grid Technologies and Demand Response Mechanisms adjust loads dynamically.
• Hybrid Renewable Energy Systems integrate multiple sources (solar, wind, biomass) to improve reliability.

2. Power System Stability & Reliability

Problem: Blackouts and Grid Failures

• Cascading failures and extreme weather events can cause large-scale power outages.

Solution:

• Wide-Area Monitoring Systems (WAMS) using PMUs (Phasor Measurement Units) improve real-time monitoring.
• AI-Based Predictive Maintenance detects faults before failures occur.
• Self-Healing Grids enable automated restoration after a fault.

3. Power Quality Issues

Problem: Voltage Sags, Harmonics, and Transients

• Industrial and commercial loads suffer from harmonics, causing overheating and equipment failures.

Solution:

• Active Power Filters (APFs) and Dynamic Voltage Restorers (DVRs) help mitigate harmonics.
• Smart Transformers with real-time monitoring provide voltage regulation.
• FACTS (Flexible AC Transmission Systems) devices like STATCOM, SVC enhance stability.

4. Energy Storage Limitations

Problem: Limited Storage Capacity and High Costs

• Existing battery technologies have high costs, limited lifespans, and environmental concerns.

Solution:

• Research into Solid-State Batteries and Flow Batteries for better efficiency.
• Hybrid Energy Storage Systems (combining batteries, supercapacitors, and flywheels) optimize performance.
• Vehicle-to-Grid (V2G) Technology uses EV batteries for grid support.

5. High Voltage Transmission Issues

Problem: Transmission Losses and Efficiency

• Long-distance power transmission results in power losses due to resistance and inefficiencies.

Solution:

• HVDC (High Voltage Direct Current) Transmission reduces losses over long distances.
• Superconducting Transmission Lines eliminate resistive losses.
• Dynamic Line Rating (DLR) adjusts transmission capacity based on real-time weather conditions.

6. Electric Vehicle (EV) Charging Infrastructure

Problem: Slow Charging and Grid Overload

• EV adoption is hindered by long charging times and peak demand stress on the grid.

Solution:

• Ultra-Fast Charging Technologies (e.g., 350 kW chargers) reduce charge time.
• Wireless Power Transfer (WPT) enables contactless EV charging.
• Smart Charging Strategies manage EV charging loads using AI and IoT.

7. Cybersecurity Threats in Smart Grids

Problem: Vulnerability to Cyberattacks

• Smart grids with IoT devices and SCADA systems are prone to hacking and cyber threats.

Solution:

• Blockchain-Based Energy Transactions ensure tamper-proof power trading.
• AI-Powered Intrusion Detection Systems (IDS) detect and mitigate cyber threats.
• Quantum Cryptography enhances security in communication networks.

8. Microgrid Optimization

Problem: Economic and Technical Barriers to Microgrid Adoption

• Microgrids face challenges in economic viability, control, and stability.

Solution:

• AI-Based Energy Management Systems optimize microgrid operation.
• Peer-to-Peer (P2P) Energy Trading via blockchain allows local energy sharing.
• Hybrid AC/DC Microgrids improve efficiency and reliability.

9. Waste in Power Generation

Problem: Inefficient Energy Use & High Carbon Emissions

• Fossil fuel plants still dominate power generation, contributing to CO₂ emissions.

Solution:

• Carbon Capture and Storage (CCS) reduces greenhouse gas emissions.
• Waste-to-Energy (WTE) Systems generate power from industrial and municipal waste.
• Energy Efficiency Programs (e.g., smart metering, LED adoption) reduce consumption.

10. Nuclear Power Safety Concerns

Problem: Risk of Accidents and Waste Disposal

• Nuclear energy faces public opposition due to safety risks and radioactive waste.

Solution:

• Small Modular Reactors (SMRs) enhance safety and scalability.
• Molten Salt Reactors (MSRs) use safer fuel cycles and prevent meltdowns.
• Advanced Nuclear Waste Recycling reduces waste and improves efficiency.

11. AI and IoT Integration in Power Systems

Problem: Lack of Real-Time Data Utilization

• Traditional power systems lack real-time data analytics and automation.

Solution:

• Edge Computing and AI Analytics enable real-time grid monitoring.
• IoT-Based Smart Sensors improve demand-side management.
• Digital Twin Technology simulates power system performance for optimization.

12. Grid Modernization & Decarbonization

Problem: Transitioning from Fossil Fuels to Green Energy

• Many power grids still rely on coal and natural gas, delaying decarbonization.

Solution:

• Green Hydrogen Power Plants provide zero-carbon electricity.
• Advanced Demand-Side Management (DSM) integrates renewables effectively.
• Energy-as-a-Service (EaaS) Models encourage sustainable energy solutions.

Research Issues in Power Engineering

The following are current research issues in Power Engineering we have addressed. We welcome opportunities to collaborate on your chosen topic. Contact us for professional assistance.

1. Renewable Energy Integration Challenges

Issue: Variability and Intermittency of Renewable Energy Sources

• Solar and wind energy depend on weather conditions, making grid integration difficult.
• Sudden fluctuations can cause voltage instability.

Potential Research Directions:

• Advanced energy storage systems (e.g., solid-state batteries, supercapacitors).
• Hybrid renewable energy systems combining solar, wind, and biomass.
• AI-driven predictive analytics for renewable energy forecasting.

2. Power System Stability and Resilience

Issue: Increasing Blackouts and Grid Failures

• Extreme weather events (hurricanes, floods) cause grid instability.
• Cyberattacks on power infrastructure are a growing threat.

Potential Research Directions:

• AI-based grid monitoring systems for fault detection.
• Self-healing smart grids that auto-detect and recover from failures.
• Blockchain for cybersecurity in power transactions.

3. Energy Storage Limitations

Issue: High Cost and Limited Efficiency of Energy Storage Technologies

• Lithium-ion batteries are expensive and have limited lifespan.
• Hydrogen storage is still in its early stages.

Potential Research Directions:

• Development of solid-state batteries with higher energy density.
• Research on green hydrogen as a long-term energy storage solution.
• Hybrid energy storage combining batteries, supercapacitors, and flywheels.

4. Smart Grid Deployment and Cybersecurity

Issue: Vulnerability of Smart Grids to Cyberattacks**

• IoT-based power networks introduce security risks.
• SCADA systems are prone to hacking.

Potential Research Directions:

• AI-driven intrusion detection systems (IDS) for power networks.
• Blockchain-based decentralized energy transactions.
• Quantum cryptography for securing grid communications.

5. High Voltage Transmission Losses

Issue: Inefficiencies in Long-Distance Power Transmission**

• Resistance in power lines leads to energy loss.
• High costs of HVDC (High Voltage Direct Current) technology.

Potential Research Directions:

• Research on superconducting transmission lines for zero-resistance power flow.
• Dynamic line rating (DLR) using real-time temperature sensing.
• Wireless power transmission for short-distance power delivery.

6. Electric Vehicles (EVs) and Grid Integration

Issue: Charging Infrastructure and Power Grid Stress

• High penetration of EVs increases peak power demand.
• EV battery life and charging times are still major concerns.

Potential Research Directions:

• Wireless power transfer (WPT) for EV charging.
• V2G (Vehicle-to-Grid) technology for balancing grid loads.
• AI-driven EV charging station optimization.

7. Power Electronics Challenges

Issue: Efficiency and Reliability of Power Converters

• Power electronic converters introduce harmonics and power losses.
• Wide-bandgap semiconductor adoption (SiC, GaN) is still limited.

Potential Research Directions:

• Soft-switching techniques for loss reduction.
• Multilevel inverters for improved power quality.
• AI-based fault prediction for power electronics systems.

8. Decarbonization and Carbon Neutral Power Systems

Issue: Transition from Fossil Fuels to Green Energy

• Fossil fuels still dominate power generation in many countries.
• Carbon capture technologies are expensive.

Potential Research Directions:

• Green hydrogen power plants as an alternative to fossil fuels.
• Artificial photosynthesis for carbon-neutral energy production.
• AI-driven energy demand response for reducing carbon footprints.

9. Microgrid and Distributed Energy Systems

Issue: Technical and Economic Barriers to Microgrid Adoption

• Managing distributed energy resources is complex.
• High initial investment costs for microgrid infrastructure.

Potential Research Directions:

• Peer-to-peer (P2P) energy trading using blockchain.
• AI-powered energy management systems for microgrid optimization.
• Hybrid AC/DC microgrid research for efficiency improvements.

10. Nuclear Power Challenges

Issue: Safety and Radioactive Waste Management

• Public concerns over nuclear disasters hinder adoption.
• Nuclear waste disposal remains a significant issue.

Potential Research Directions:

• Small modular reactors (SMRs) for safer nuclear power.
• Molten salt reactors (MSRs) to minimize nuclear waste.
• Nuclear fusion advancements for future clean energy.

11. AI and Machine Learning in Power Engineering

Issue: Lack of Real-Time Decision-Making Capabilities

• Power systems generate massive data but lack AI-based optimization.
• Grid management still relies on traditional methods.

Potential Research Directions:

• AI-powered predictive analytics for power demand forecasting.
• Digital twins of power grids for simulation and optimization.
• Reinforcement learning for adaptive grid control.

12. Electrification of Industrial and Residential Sectors

Issue: High Energy Demand and Power Quality Concerns

• Industrial electrification leads to load balancing issues.
• High penetration of electronic loads introduces harmonics.

Potential Research Directions:

• AI-driven power factor correction for industrial grids.
• Energy-efficient HVAC systems for buildings.
• Supercapacitors for instant power stabilization.

13. High Penetration of IoT in Power Systems

Issue: Data Overload and Interoperability Challenges

• Managing IoT sensors and devices in power systems is complex.
• Lack of universal standards for IoT in energy applications.

Potential Research Directions:

• Edge computing for real-time power system monitoring.
• 5G-enabled smart grids for ultra-fast communication.
• AI-based anomaly detection in IoT-powered grids.

14. Next-Generation Grid Modernization

Issue: Transition to AI-Driven Autonomous Grids

• Current grids still require human intervention for many operations.
• Energy trading and grid balancing need automation.

Potential Research Directions:

• Autonomous AI-driven energy markets for decentralized trading.
• Self-healing smart grids that detect and correct failures.
• Quantum computing for real-time power flow optimization.

Research Ideas in Power Engineering

We have worked on the latest ideas in Power Engineering some of which are listed below. Let us provide you with personalized ideas and expert guidance.

1. Renewable Energy and Sustainable Power Systems

Idea 1: AI-Based Renewable Energy Forecasting

• Develop machine learning models to predict solar and wind power generation.
• Use real-time meteorological data for accurate energy forecasting.

Idea 2: Hybrid Renewable Energy Systems Optimization

• Design an AI-optimized hybrid system integrating solar, wind, and biomass.
• Implement a smart energy management system for seamless power flow.

Idea 3: Floating Solar Photovoltaic (FPV) Systems

• Investigate the efficiency of solar PV installed on water bodies.
• Analyze thermal cooling effects for increased power output.

Idea 4: Offshore Wind Energy Harvesting Using AI

• Design AI-based controllers for optimal offshore wind turbine operations.
• Integrate predictive maintenance to minimize downtime.

Idea 5: Power-to-X Technology for Renewable Energy Storage

• Research Power-to-Gas (P2G): Converting excess renewable energy into hydrogen.
• Develop a hydrogen-based storage system for grid applications.

2. Smart Grid and Energy Management

Idea 6: Blockchain-Based Peer-to-Peer (P2P) Energy Trading

• Develop a blockchain-enabled energy trading system for microgrids.
• Ensure secure, decentralized transactions between prosumers.

Idea 7: AI-Driven Grid Stability and Optimization

• Implement reinforcement learning algorithms for dynamic grid control.
• Develop a self-healing grid that automatically detects and corrects faults.

Idea 8: Cybersecurity Framework for Smart Grids

• Design intrusion detection systems (IDS) using AI for smart grids.
• Implement blockchain-based security for secure energy transactions.

Idea 9: AI-Based Demand Response for Smart Homes

• Build a real-time load forecasting system for household energy optimization.
• Use IoT-enabled smart meters for real-time data analytics.

Idea 10: Edge Computing in Smart Grid Systems

• Research on AI-driven edge devices for decentralized grid control.
• Implement real-time voltage regulation algorithms using edge AI.

3. Power Electronics and Energy Conversion

Idea 11: Multilevel Inverters for Renewable Energy Integration

• Develop high-efficiency inverters for solar and wind power.
• Implement SiC- and GaN-based semiconductor devices for low-loss switching.

Idea 12: Wireless Power Transfer (WPT) for Electric Vehicles

• Design resonant inductive coupling systems for EV charging.
• Investigate dynamic wireless charging systems for moving EVs.

Idea 13: Solid-State Transformers for Future Power Grids

• Research high-frequency power converters for grid integration.
• Develop a solid-state transformer prototype with AI-based control.

Idea 14: Energy-Efficient DC-DC Converters for Smart Grids

• Design bidirectional converters for grid-to-vehicle (G2V) and vehicle-to-grid (V2G) applications.
• Optimize high-gain topologies for low-voltage power systems.

Idea 15: Grid-Connected Inverter Control with AI

• Implement AI-based adaptive control strategies for microgrid inverters.
• Develop fault-tolerant control algorithms for power converters.

4. High Voltage Engineering and Power Transmission

Idea 16: AI-Based Fault Detection in HVDC Transmission

• Use machine learning for real-time fault classification in HVDC lines.
• Develop early warning systems for grid reliability.

Idea 17: Superconducting Transmission for Zero-Loss Power Transport

• Investigate high-temperature superconductors (HTS) for power grids.
• Model superconducting power cables with reduced energy losses.

Idea 18: Wireless Power Transmission for Space-Based Solar Power

• Develop a microwave power beaming system for space solar panels.
• Study the efficiency of power transmission from space to Earth.

Idea 19: Smart Surge Protection in Power Systems

• Implement AI-driven surge arresters for lightning protection.
• Research on adaptive insulation materials for HV transmission.

Idea 20: Predictive Maintenance of Transformers Using IoT

• Develop AI-based health monitoring systems for power transformers.
• Use thermal imaging and vibration analysis for early fault detection.

5. Electric Vehicles (EVs) and Transportation Electrification

Idea 21: AI-Based Battery Management System for EVs

• Design an AI-powered battery health monitoring system.
• Optimize charging/discharging cycles for extended battery life.

Idea 22: Fast-Charging Algorithms for Lithium-Ion Batteries

• Develop high-speed charging techniques with minimal degradation.
• Study the impact of high-current charging on battery lifespan.

Idea 23: V2G (Vehicle-to-Grid) Optimization Using AI

• Implement predictive load balancing algorithms for V2G systems.
• Develop a blockchain-based EV energy trading platform.

Idea 24: Solar-Powered Electric Vehicle Charging Stations

• Design off-grid EV charging stations using solar PV and battery storage.
• Optimize solar panel orientation for maximum energy harvesting.

Idea 25: AI-Driven Energy Routing in Smart Transportation

• Develop autonomous energy routing for electric fleets.
• Use machine learning for energy consumption prediction in smart cities.

6. Microgrid and Distributed Energy Resources

Idea 26: AI-Based Energy Forecasting for Microgrids

• Develop deep learning models for energy demand prediction.
• Optimize microgrid dispatch strategies using AI.

Idea 27: Hybrid AC/DC Microgrid Optimization

• Design dual-voltage microgrid architectures for efficiency.
• Implement bidirectional converters for seamless AC-DC conversion.

Idea 28: Peer-to-Peer Energy Trading Using Smart Contracts

• Develop a decentralized microgrid energy trading system.
• Implement AI-powered pricing models for real-time transactions.

Idea 29: Smart Grid-Connected Nanogrids for Remote Areas

• Research off-grid nanogrid solutions for rural electrification.
• Develop AI-controlled microgrid stability management.

Idea 30: AI-Powered Self-Healing Microgrids

• Design self-healing microgrids that detect and fix faults automatically.
• Use reinforcement learning for adaptive control.

7. AI and Machine Learning in Power Engineering

Idea 31: AI-Driven Fault Prediction in Power Systems

• Use deep learning algorithms for real-time fault detection.
• Implement edge computing for faster response times.

Idea 32: Reinforcement Learning for Optimal Power Dispatch

• Design AI-based dynamic power allocation for smart grids.
• Optimize renewable energy curtailment using RL algorithms.

Idea 33: Digital Twin for Smart Grid Simulation

• Develop a real-time digital twin for power grid analysis.
• Use AI-driven predictive models for grid behavior simulation.

Idea 34: AI-Powered Demand-Side Management

• Implement deep reinforcement learning for load forecasting.
• Design automated load control systems for industrial consumers.

Idea 35: Machine Learning for Power Quality Analysis

• Use AI models to detect power anomalies and voltage fluctuations.
• Develop smart filters for real-time harmonic mitigation.

Research Topics in Power Engineering

Innovation in Power Engineering starts with the right idea. Let phdservices.org help you find yours. We’ve listed some breakthrough topics we’ve worked on below.

1. Renewable Energy and Sustainable Power Systems

1. Hybrid Renewable Energy Systems: Optimization of solar, wind, and biomass integration.
2. Floating Solar PV Technology: Efficiency improvements in water-based solar systems.
3. AI-Based Wind Power Forecasting: Using deep learning for wind energy prediction.
4. Hydrogen as an Energy Carrier: Power-to-gas conversion for grid storage.
5. Waste-to-Energy Systems: Innovative methods for converting waste into electricity.

2. Smart Grid and Energy Management

1. Blockchain for Peer-to-Peer Energy Trading: Decentralized microgrid transactions.
2. Cybersecurity in Smart Grids: AI-based intrusion detection for power systems.
3. IoT-Based Demand-Side Management: Optimizing energy usage in smart homes.
4. AI-Driven Grid Optimization: Predictive maintenance and self-healing networks.
5. Edge Computing in Smart Grids: Real-time analytics for grid monitoring.

3. Power Electronics and Energy Conversion

1. High-Efficiency Multilevel Inverters: Improving power quality in renewables.
2. Wireless Power Transfer for EVs: Dynamic charging for electric vehicles.
3. Solid-State Transformers (SST): Revolutionizing high-voltage transmission.
4. AI-Controlled Power Converters: Smart controllers for high-efficiency power conversion.
5. SiC and GaN-Based Power Devices: Enhancing efficiency in power electronics.

4. High Voltage Engineering and Transmission Systems

1. Superconducting Power Cables: Lossless energy transmission solutions.
2. HVDC vs. HVAC Transmission: A comparative study on efficiency and reliability.
3. Fault Detection in HV Systems: AI-based predictive maintenance techniques.
4. Wireless Power Transmission for Space Solar Power: Future of off-planet energy harvesting.
5. Smart Surge Protection for Grids: AI-driven systems for transient mitigation.

5. Electric Vehicles (EVs) and Transportation Electrification

1. AI-Based Battery Management Systems (BMS): Extending battery life and efficiency.
2. Fast-Charging Technologies for EVs: Ultra-fast battery charging with minimal degradation.
3. Vehicle-to-Grid (V2G) Integration: EVs as energy storage units for the grid.
4. Autonomous Energy Routing for EVs: AI-driven charge scheduling in smart cities.
5. Wireless EV Charging Networks: Developing a seamless charging infrastructure.

6. Microgrids and Distributed Energy Resources

1. Resilient Microgrid Design: AI-powered self-healing microgrids.
2. Hybrid AC/DC Microgrids: Designing efficient microgrid architectures.
3. Peer-to-Peer Energy Trading Using Smart Contracts: Blockchain applications in microgrids.
4. AI-Based Energy Demand Forecasting for Microgrids: Predictive analytics for decentralized energy.
5. Renewable-Powered Off-Grid Nanogrids: Solutions for rural electrification.

7. AI and Machine Learning in Power Engineering

1. Deep Learning for Power Grid Anomaly Detection: AI models for grid security.
2. Digital Twin of Power Systems: Real-time grid simulation and optimization.
3. Reinforcement Learning for Power Dispatch: AI-driven load management strategies.
4. Smart Load Balancing Using AI: Adaptive energy distribution models.
5. Machine Learning for Power Quality Analysis: AI-based harmonics detection and mitigation.

8. Decarbonization and Carbon Neutral Power Systems

1. Green Hydrogen for Power Generation: Replacing fossil fuels in energy production.
2. Carbon Capture and Storage (CCS) in Power Plants: Feasibility and optimization.
3. AI-Based Carbon Footprint Reduction Strategies: Energy efficiency in industrial processes.
4. Smart Energy Policies for Carbon Neutrality: Policy-based solutions for power grids.
5. AI-Enhanced Demand Response Strategies: Grid balancing for reduced emissions.

9. Next-Generation Grid Modernization

1. Quantum Computing for Grid Optimization: Future of high-speed power flow calculations.
2. Autonomous AI-Based Energy Markets: Intelligent pricing models for electricity.
3. Smart Cities and Grid Interaction: AI-driven power solutions for urban centers.
4. AI-Based Load Forecasting for Future Energy Markets: Real-time demand prediction.
5. Decentralized Energy Networks for Resilient Grids: Implementing edge intelligence in power systems.

10. Nuclear Energy and Advanced Reactor Technologies

1. Small Modular Reactors (SMRs) for Decentralized Power Generation.
2. Molten Salt Reactors (MSRs) for Safe Nuclear Energy.
3. Advanced Nuclear Waste Recycling Methods.
4. Fusion Energy Research for Long-Term Power Generation.
5. AI-Based Nuclear Reactor Safety Systems.

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